Characterization of 3D-printed dielectric substrates with different infill for microwave applications

E. Massoni, L. Silvestri, M. Bozzi, L. Perregrini, G. Alaimo, S. Marconi, F. Auricchio
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引用次数: 31

Abstract

This paper presents the characterization of a 3D printed material based on Ninjaflex filament, through different techniques: the dielectric properties of the material are preliminary retrieved by a waveguide-based method, where a 3D-printed dielectric sample is inserted into a hollow metallic waveguide: this method allows for an accurate and narrow-band characterization. Subsequently, two microstrip lines with different length, realized on a 3D-printed substrate, are used for the broadband characterization in the frequency band from 2 GHz to 20 GHz. The effect of the infill percentage on the dielectric permittivity and loss tangent of the printed material are rigorously investigated and experimentally demonstrated, showing a large tunability when varying the infill from 25% to 100%. These results pave the road to the implementation of novel microwave components, based on the local variation of the dielectric permittivity, and suggest a technique to effectively reduce dielectric losses.
微波应用中不同填充物的3d打印介质基板的特性
本文介绍了基于Ninjaflex灯丝的3D打印材料的特性,通过不同的技术:材料的介电特性通过基于波导的方法初步检索,其中3D打印的介电样品插入空心金属波导中:该方法允许精确和窄带表征。随后,在3d打印基板上实现了两条不同长度的微带线,用于2 GHz至20 GHz频段的宽带表征。研究了填充率对印刷材料介电常数和损耗正切的影响,并通过实验证明了填充率在25%到100%之间有很大的可调性。这些结果为基于介电常数局部变化的新型微波元件的实现铺平了道路,并提出了一种有效降低介电损耗的技术。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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